run tests on solutions; tune CSS for wider text

[rust-101.git] / src / part06.rs

diff --git a/src/part06.rs b/src/part06.rs
index 00a2bde39038dd3478bb3ac1c44f6c829080bd0e..b39a441f1a7c95bfce5af88d99b934b52cf4529e 100644 (file)
--- a/src/part06.rs
+++ b/src/part06.rs
@@ -25,8 +25,8 @@ impl BigInt {
     }
 }
 
     }
 }
 

-// Now we can write `vec_min`. However, in order to make it type-check, we have to make a full (deep) copy of e
-// by calling `clone()`.
+// Now we can write `vec_min`.
+//@ However, in order to make it type-check, we have to make a full (deep) copy of e by calling `clone()`.

 fn vec_min(v: &Vec<BigInt>) -> Option<BigInt> {
     let mut min: Option<BigInt> = None;
     for e in v {
 fn vec_min(v: &Vec<BigInt>) -> Option<BigInt> {
     let mut min: Option<BigInt> = None;
     for e in v {


@@ -49,7 +49,7 @@ fn vec_min(v: &Vec<BigInt>) -> Option<BigInt> {
 //@ `e` is a `&BigInt`. Assigning `min = Some(*e)` works just like a function call: Ownership of the
 //@ underlying data is transferred from where `e` borrows from to `min`. But that's not allowed, since
 //@ we just borrowed `e`, so we cannot empty it! We can, however, call `clone()` on it. Then we own
 //@ `e` is a `&BigInt`. Assigning `min = Some(*e)` works just like a function call: Ownership of the
 //@ underlying data is transferred from where `e` borrows from to `min`. But that's not allowed, since
 //@ we just borrowed `e`, so we cannot empty it! We can, however, call `clone()` on it. Then we own

-//@ the copy that was created, and hence we can store it in `min`.<br/>
+//@ the copy that was created, and hence we can store it in `min`. <br/>

 //@ Of course, making such a full copy is expensive, so we'd like to avoid it. We'll some to that in the next part.
 
 // ## `Copy` types
 //@ Of course, making such a full copy is expensive, so we'd like to avoid it. We'll some to that in the next part.
 
 // ## `Copy` types


@@ -78,7 +78,7 @@ impl<T: Copy> Copy for SomethingOrNothing<T> {}
 
 //@ ## An operational perspective
 //@ Instead of looking at what happens "at the surface" (i.e., visible in Rust), one can also explain
 
 //@ ## An operational perspective
 //@ Instead of looking at what happens "at the surface" (i.e., visible in Rust), one can also explain

-//@ ownership passing and how `Copy` and `Clone` fit in by looking at what happens on the machine.<br/>
+//@ ownership passing and how `Copy` and `Clone` fit in by looking at what happens on the machine. <br/>

 //@ When Rust code is executed, passing a value (like `i32` or `Vec<i32>`) to a function will always
 //@ result in a shallow copy being performed: Rust just copies the bytes representing that value, and
 //@ considers itself done. That's just like the default copy constructor in C++. Rust, however, will
 //@ When Rust code is executed, passing a value (like `i32` or `Vec<i32>`) to a function will always
 //@ result in a shallow copy being performed: Rust just copies the bytes representing that value, and
 //@ considers itself done. That's just like the default copy constructor in C++. Rust, however, will